Genomic techniques |
DNA microarray |
Hybridization based genomic technology identified gene from gene clusters |
Prediction of specific protein and metabolite sequences by comparing with another genome |
Özdemir et al. (2017) |
Genome mining |
Locate the genes into the genome |
Search the location of genes that helps in metabolite formation |
Narayanan et al. (2010) |
Screening of unknown genes from whole-genome sequence |
To know the biosynthetic potential of fungal SM BGC |
Palazzotto and Weber (2018) |
Global Natural Product Social Molecular Networking (GNPS) |
Added with MS/MS spectrum coupled with GC/LC to know the natural products |
Perform MS searches using MS/MS spectrum as a query search, help in the quantification of metabolites or other drug components into the sample |
Mao et al. (2021) |
CRISPR/Cas9 |
Based on genome editing technology |
Highly efficient genetic manipulation technique with enabled the taking advantage and discovery of new bioactive compounds |
Hadjithomas et al. (2017) |
Transcriptomic approach |
cDNA-AFLP |
Sequence needed for cluster and alignment |
Discover novel genes for metabolite production |
Garber et al. (2011) |
Shotgun sequencing |
RNA identification by forming cDNA fragments |
Detect, quantify, and annotate the coding/non-coding RNA |
Fondi and Liò (2015) |
Probe-based arrays |
mRNA analysis with labeled sample and connect with cap analysis of gene expression tool (CAGE) |
Explore gene expression at global level, screening of SM BGC cluster using Southern blots |
Hasin et al. (2017) |
Deep-sequencing technologies |
RNA-sequencing for SM gene prediction in fungi |
Determine RNA expression level, capture transcriptome dynamics |
Ozsolak and Milos (2011) |
Next-generation sequence (NGS) |
RNA sequence identification by alter the DNA sequencing |
Biomarker, therapeutic targets, SM gene cluster verification |
Liu et al. (2021); Hasin et al. (2017) |